Abstract: Power consumption is sensed for individual subsystems of an agricultural machine. Visual indicia are generated, that are indicative of the sensed power consumption, for each individual subsystem. A user interface mechanism is controlled to display the visual indicia, indicating power consumption of the individual subsystems on the harvesting machine.

Abstract: In an agricultural machine, sensor signal variability is identified, over a period of time. A control system deadband is identified, based upon the sensor signal variability. A control system uses the control system deadband to control the agricultural machine.

Abstract: Sensor signal values, indicative of a performance metric, are received and recorded over a given time period. The sensor signal values are aggregated, and a threshold signal value is identified based on the aggregated sensor signal value. A set of control signals, for controlling subsystems on the mobile machine, are generated based on the identified threshold signal value, and the subsystems are controlled based upon the control signals.

Abstract: A sensor generates a sensor signal indicative of a sensed variable. A first filter is applied to the sensor signal, and filters the sensor signal based on a first set of sensor data, to generate a first filtered signal. A second filter is applied to the sensor signal, based on a second set of sensor data that is greater than the first set of sensor data, to generate a second filtered sensor signal. The first and second filtered sensor signals are compared to generate a control signal that can be used to control a controllable subsystem of a mobile machine.

Abstract: A sensor generates a sensor signal indicative of a sensed variable. A first filter is applied to the sensor signal, and filters the sensor signal based on a first set of sensor data, to generate a first filtered signal. A second filter is applied to the sensor signal, based on a second set of sensor data that is greater than the first set of sensor data, to generate a second filtered sensor signal. The first and second filtered sensor signals are compared to generate a control signal that can be used to control a controllable subsystem of a mobile machine.

Abstract: A set of sensor inputs are received in an agricultural machine. The sensor inputs are indicative of sensed or measured variables. A probabilistic control system probabilistically infers values for another set of variables and generates a set of control signals based on the probabilistically inferred values.

Abstract: A set of sensor inputs are received in an agricultural machine. The sensor inputs are indicative of sensed or measured variables. A probabilistic control system probabilistically infers values for another set of variables and generates a set of control signals based on the probabilistically inferred values.

Abstract: Sensor signal values, indicative of a performance metric, are received and recorded over a given time period. The sensor signal values are aggregated, and a threshold signal value is identified based on the aggregated sensor signal value. A set of control signals, for controlling subsystems on the mobile machine, are generated based on the identified threshold signal value, and the subsystems are controlled based upon the control signals.

Abstract: Power consumption is sensed for individual subsystems of an agricultural machine. Visual indicia are generated, that are indicative of the sensed power consumption, for each individual subsystem. A user interface mechanism is controlled to display the visual indicia, indicating power consumption of the individual subsystems on the harvesting machine.

Abstract: In an agricultural machine, sensor signal variability is identified, over a period of time. A control system deadband is identified, based upon the sensor signal variability. A control system uses the control system deadband to control the agricultural machine.